Knowledge about bonding in diiminepyridine (L) halide, alkyl, and dinitrogen complexes of the metals iron, cobalt, and nickel is summarized, and two new examples are added to the set: L(1)Ni(Me) and L(1)Ni(N(2)). Reactivity of these types of complexes is discussed in terms of organic radical chemistry. New C-C couplings with L(2)CoAr complexes are described and proposed to involve halide abstraction and radical coupling. Calculations support the high tendency of the diiminepyridine ligand to accept an electron coming from a metal-carbon bond and so facilitate loss of a radical
α-Diimine ligands, in particular 1,4-diazabutadiene (dad) and bis(iminoacenaphthene) (bian) derivati...
Popular catalytic cycles, such as the Heck, Suzuki, and Negishi, utilize metal centers that oscillat...
This manuscript describes the formally iron(I) complexes LMeFe(Py-R)2 (LMe = bulky β-diketiminate; R...
Knowledge about bonding in diiminepyridine (L) halide, alkyl, and dinitrogen complexes of the metals...
Redox-active ligands deliver redox equivalents to impart multi-electron functionality at 3d metals t...
The reactivity of metal fragments MeLi(THF), Me2Mg, Me2Zn and Me3Al with a variety of imine/pyridine...
Redox-active nitrogen donor ligands have exhibited broad utility in stabilizing transition metal com...
Discovering new types of catalysts is of vital importance as we seek more efficient methodologies to...
(Chemical Equation Presented) Bis(imino)pyridine complex [Ni{2,6-(ArN=CMe)2C5H3N}Cl] (where Ar = 2,6...
The diiminepyridine ligand, made famous by Brookhart and Gibson a decade ago through its use in the ...
Unlocking novel and applicable chemistry of earth abundant metals such as magnesium and zinc require...
The utilization of metal–metal bonds for novel chemical transformations is an area of research which...
Redox reactions that take place in enzymes and on the surfaces of heterogeneous catalysts often requ...
Based on previous work related to the design and application of rigid tridentate phosphine-pyridine-...
New magnetic metal complexes with organic radical ligands, [M(hfac)2(PyBTM)2] (M = NiII, CoII; hfac ...
α-Diimine ligands, in particular 1,4-diazabutadiene (dad) and bis(iminoacenaphthene) (bian) derivati...
Popular catalytic cycles, such as the Heck, Suzuki, and Negishi, utilize metal centers that oscillat...
This manuscript describes the formally iron(I) complexes LMeFe(Py-R)2 (LMe = bulky β-diketiminate; R...
Knowledge about bonding in diiminepyridine (L) halide, alkyl, and dinitrogen complexes of the metals...
Redox-active ligands deliver redox equivalents to impart multi-electron functionality at 3d metals t...
The reactivity of metal fragments MeLi(THF), Me2Mg, Me2Zn and Me3Al with a variety of imine/pyridine...
Redox-active nitrogen donor ligands have exhibited broad utility in stabilizing transition metal com...
Discovering new types of catalysts is of vital importance as we seek more efficient methodologies to...
(Chemical Equation Presented) Bis(imino)pyridine complex [Ni{2,6-(ArN=CMe)2C5H3N}Cl] (where Ar = 2,6...
The diiminepyridine ligand, made famous by Brookhart and Gibson a decade ago through its use in the ...
Unlocking novel and applicable chemistry of earth abundant metals such as magnesium and zinc require...
The utilization of metal–metal bonds for novel chemical transformations is an area of research which...
Redox reactions that take place in enzymes and on the surfaces of heterogeneous catalysts often requ...
Based on previous work related to the design and application of rigid tridentate phosphine-pyridine-...
New magnetic metal complexes with organic radical ligands, [M(hfac)2(PyBTM)2] (M = NiII, CoII; hfac ...
α-Diimine ligands, in particular 1,4-diazabutadiene (dad) and bis(iminoacenaphthene) (bian) derivati...
Popular catalytic cycles, such as the Heck, Suzuki, and Negishi, utilize metal centers that oscillat...
This manuscript describes the formally iron(I) complexes LMeFe(Py-R)2 (LMe = bulky β-diketiminate; R...